
Prompt versioning for production AI systems
Treat prompts as versioned production artifacts with lineage, evaluations, promotion workflows, rollback, ownership, and runtime observability.
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Treat prompts as versioned production artifacts with lineage, evaluations, promotion workflows, rollback, ownership, and runtime observability.

Move notebook experiments into repeatable ML jobs with explicit inputs, versioned code, reproducible containers, and Polyaxon tracking.

Use kubectl edit for deliberate live Kubernetes changes while avoiding controller conflicts, configuration drift, wrong-cluster edits, and unrecoverable fixes.

Understand Kubernetes CPU requests, limits, throttling, and the failure modes caused by weak resource configuration.

Use explicit kubeconfig contexts, namespaces, identities, and verification checks to reduce wrong-cluster changes across development, staging, and production.

Design ML pipelines with explicit dependencies, resource placement, safe caching, bounded retries, and complete evaluation evidence in Polyaxon.

Configure startup, readiness, and liveness probes for model servers and interactive ML services without causing restart loops or hiding dependency failures.

Design least-privilege Kubernetes access for ML workloads with clear subjects, namespaced roles, dedicated service accounts, permission checks, and reviewable policy.

Connect experiment records, dataset versions, model artifacts, and review decisions into a reusable ML knowledge repository with Polyaxon.

Design repeatable Kubernetes load tests for model services using realistic arrivals, tail latency, queueing, accelerator metrics, and recovery criteria.

Give model servers enough time to load weights and warm runtimes without weakening liveness detection for the rest of their lifecycle.

Design Kubernetes and ML platform workflows that remain usable with keyboards, assistive technology, low-vision settings, and different ways of working.

Distributed learning splits model training across processors or machines. Learn the main strategies, tradeoffs, and how to run it on Kubernetes.

Use Kubernetes resource, object-state, and control plane metrics to diagnose scheduling delays, size workloads, and design actionable alerts.

Choose service boundaries for Kubernetes-based ML platforms without turning every component, model, or workflow step into a separate microservice.

Create and verify Kubernetes Services with kubectl expose while keeping selectors, ports, exposure scope, and production configuration explicit.

Diagnose Kubernetes DiskPressure, understand eviction signals, and prevent images, logs, and local ML data from exhausting node storage.

Evaluate whether Kubernetes provides enough scheduling, isolation, portability, and operational leverage to justify its complexity for ML workloads.

Check kubectl, control-plane, node, and API compatibility before upgrades or while diagnosing inconsistent Kubernetes behavior.

Understand how Pods, Services, DNS, ingress, egress, and network policy shape the data paths used by training jobs and model services.

Use Hadolint to catch Dockerfile problems early while keeping base-image policy, dependency pinning, security scanning, and runtime validation separate.

Monitor Node.js services with request outcomes, event-loop delay, memory, dependencies, Kubernetes state, and low-cardinality telemetry.

Why queue management matters for shared ML infrastructure and how Polyaxon handles priorities, concurrency, and workload scheduling.

Create useful Python logs for training and batch workloads with structured context, exception details, stdout collection, and controlled volume.